用实验和数值方法研究薄膜的纳米压痕

L. Dowhan, A. Wymyslowski, O. Wittler
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引用次数: 2

摘要

纳米压痕是研究薄膜性质的最著名的方法之一。材料可以通过弹性力学性能(硬度和杨氏模量)来评估。然而,作者的研究工作表明,可以获得所研究薄层的弹性和塑性材料行为。可以通过纳米压痕实验和数值模拟来实现。本文在有限元法和数值优化方法的支持下,重点研究了纳米压痕对金属薄层的影响。采用三水平全因子试验设计(DOE)处理。为了进行这样的实验,我们准备并考虑了27个样品:3种不同的材料,3种不同的厚度值溅射在3种不同的基底上。然后用数值方法对结果进行处理,以获得更多关于材料的信息——主要是塑性行为。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Investigation of thin films by nanoindentation with doe and numerical methods
Nanoindentation is one of the most known method for investigating the properties of thin films. The materials can be assessed by means of elastic mechanical properties (hardness and Young's modulus). However, the author's research works show that it is possible to obtain the elastic as well as the plastic material behavior of the investigated thin layer. It can be done by using the nanoindentation experiment and the numerical simulations. This paper focuses then on investigation of thin metal layers by nanoindentation with a support of numerical methods, such as finite element method and numerical optimization processes. Additionally, the 3-level, full factorial design of experiment (DOE) process was applied. In order to carry out such experiment 27 samples were prepared and taken into account: 3 different materials with 3 different thickness's values sputtered on 3 different substrates. The results were then processed by the numerical methods in order to achieve more information about the materials — mainly the plastic behaviour.
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